Size-Selective Fishing of Palaemon Serratus (Decapoda, Palaemonidae) In

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Size-Selective Fishing of Palaemon Serratus (Decapoda, Palaemonidae) In Size-selective fishing of Palaemon serratus (Decapoda, Palaemonidae) in ANGOR UNIVERSITY Wales, UK: Emmerson, Jack; Haig, Jodie; Robson, Georgia; Hinz, Hilmar; Le Vay, Lewis; Kaiser, Michel Journal of the Marine Biological Association of the United Kingdom DOI: 10.1017/S0025315416000722 PRIFYSGOL BANGOR / B Published: 01/09/2017 Peer reviewed version Cyswllt i'r cyhoeddiad / Link to publication Dyfyniad o'r fersiwn a gyhoeddwyd / Citation for published version (APA): Emmerson, J., Haig, J., Robson, G., Hinz, H., Le Vay, L., & Kaiser, M. (2017). Size-selective fishing of Palaemon serratus (Decapoda, Palaemonidae) in Wales, UK: implications of sexual dimorphism and reproductive biology for fisheries management and conservation. 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Oct. 2021 P serratus biology & size-selective fishing 1 Title: Size-selective fishing of Palaemon serratus (Decapoda, Palaemonidae) in Wales, UK: implications of 2 sexual dimorphism and reproductive biology for fisheries management and conservation. 3 Authors: Jack A. Emmerson1, Jodie A. Haig1, Georgia Robson1, Hilmar Hinz2, Lewis Le Vay1 and Michel J. 4 Kaiser1. 5 Address: 6 1 Fisheries and Conservation Science Group, School of Ocean Sciences, Bangor University, Menai Bridge, 7 Anglesey, LL59 5AB, UK. 8 2 Ecology and Marine Resources, IMEDEA, Esporles, Illes Balears, Spain 9 Corresponding author: tel: +44 1624 685 029; email: [email protected] 10 Key words: Caridea; Ecosystem based management; Prawn; Sex-bias; Size at maturity 11 Abstract 12 The common prawn (Palaemon serratus) supports a small-scale but economically important seasonal static- 13 gear fishery in Cardigan Bay, Wales (UK). Due to a lack of statutory obligation and scientific evidence, the 14 fishery has operated to date without any harvest-control-rules that afford protection from overfishing. In 15 response to fluctuations in landings and in pursuit of increased economic returns for their catch, some 16 members of the fishing industry have adopted a size-selective harvesting regime, which we evaluate here 17 using baseline data. Monthly samples were obtained from fishers operating out of five ports between 18 October 2013 and May 2015 (n = 4,233). All prawn were sexed, weighed and measured, whilst the fecundity 19 of females was estimated for 273 (44%) individuals. Peak spawning occurred during the spring and females 20 were estimated to undergo a ‘puberty moult’ at a carapace length (CL) of 7.7 mm, whilst functional maturity 21 was estimated at a CL of 9.9 mm. The sampled population exhibited sexual dimorphism, with females 22 attaining a greater size than males. The current harvesting regime results in a sex bias in landings as even 23 large mature males remained under the recruitment size to the fishery, unlike the large mature females. The 24 temporal trend in sex-ratio indicates a continual decrease in the catchability of female prawn through the 25 fishing season; however, whether this is caused by depletion via fishing mortality or migratory behaviour is 26 yet to be resolved. Here, we provide a comprehensive baseline evaluation of population biology and discuss 27 the implications of our findings for fisheries management. 1 P serratus biology & size-selective fishing 28 INTRODUCTION 29 The fishery for the common prawn, Palaemon serratus (Pennant 1777; Neal 2008), is relatively small 30 compared to other European “prawn” fisheries (Nephrops norvegicus and Pandulus borealis); however, in 31 the UK it has significant regional economic importance. In Cardigan Bay (Wales), the fishery accounts for 32 ~76% of total UK landings (estimate from 2013; MMO, 2015). Commercial exploitation of prawns in 33 Cardigan Bay is exclusively an inshore static-gear pot fishery, with most vessels working within six nautical 34 miles of the coast. The fishery begins to target prawn in early autumn and continues through to the following 35 spring (Cardigan Bay Fishermen’s Association (CBFA) pers comm.). The fishing season is dictated by the 36 reproductive migrations of P. serratus, which are thought to move inshore to release larvae during the 37 summer and then move offshore in winter. Similar seasonal migrations are reported in a range of palaemonid 38 species, including for P. serratus in other regions (Guerao & Ribera, 2000; González-Ortegón et al., 2006). 39 The seasonal migration of prawns inshore in the summer decreases static gear catches to levels that are no 40 longer economically viable (CBFA pers comm.). Nonetheless, the Cardigan Bay prawn resource is integral in 41 maintaining the economic viability of many fishing businesses as it provides income during a time of the 42 year when the catchability of other target species, such as European lobster (Homarus gammarus), is low. 43 The fishery is therefore an important element in a necessarily diverse static-gear sector. 44 Commercial demand for a larger-sized prawn has resulted in the introduction of voluntary size-grading of 45 catch by fishers. Since 2008, many Cardigan Bay fishers have used a 10 mm bar-spacing riddle (CBFA pers 46 comm.). Prawns that fall through the bars and into the sorting box are discarded overboard, whilst prawns 47 retained by the riddle are stored onboard, usually within small viver systems. 48 As with many small-scale artisanal fisheries, the Welsh prawn fishery is considered data-poor, with little 49 information pertaining to the fisheries biology of the species. Combined with limited management and the 50 lack of a formal stock-assesment, there is considerable uncertainty about the future sustainability of the 51 fishery. Indeed, fluctuations in inter-annual landings in the Irish fishery (Fahy & Gleeson, 1996; Kelly et al., 52 2009) suggest a variable biomass that may be vulnerable to periodic overfishing or recruitment failure in the 53 absence of management. Understanding the interaction of fishing activites with the species biology is 54 necessary to inform future evidence-based management of the fishery and more generally, understanding the 55 reproductive biology of a fished species is critical information when considering ‘supply-side’ ecology of 56 benthic populations with economic value (Underwood & Fairweather, 1989; Anger, 2006). 2 P serratus biology & size-selective fishing 57 The common prawn is patchily distributed throughout European inshore waters (Kelly et al., 2009) and 58 occurs between the Mediterranean Sea in the south and the temperate coastal waters of the United Kingdom 59 and Ireland in the north (Forster, 1951). Although the longevity of the species has been speculated to be up to 60 five years (Cole, 1958; Forster, 1959), P. serratus are more likely to have a relatively short life span, with 61 individuals persisting for between two to three years (Forster, 1951; Fahy & Gleeson, 1996). Similar to other 62 palaemonids, P. serratus is sexually dimorphic, with adult females attaining significantly larger sizes 63 (Forster, 1951; Berglund, 1981). Sexual dimorphism may influence mortality rates between the sexes, from 64 both size-selective commercial exploitation and natural mortality through predation (Berglund & Rosenqvist 65 1986). For female palaemonids, a larger body size also allows for increased fecundity (Guerao et al., 1994). 66 Compared to other similar species, P. serratus broods contain larger eggs with high nutritional values 67 (Morais et al., 2002), which are thought to reflect environmental conditions and increase successful 68 recruitment through the larval phase (Parker & Begon, 1986). The planktonic larval phase is characterised by 69 temperature dependent periods of incremental growth and metamorphis (Reeve, 1969a; Kelly et al., 2012), 70 while salinity has been shown to influence mortality rates during the early life stages (Kelly et al., 2012). 71 The aim of this research was to fill the knowledge gaps for this data-poor fishery by presenting baseline 72 catch and population biology characteristics (length frequency, sex ratio, size at maturity) during the adult 73 stage of the species life-history and to highlight several potential implications of a mandatory technical 74 conservation measure of riddling catches at 10 mm. 75 MATERIALS AND METHODS 76 In August 2013, six commercial fishermen operating from five different ports in Cardigan Bay, Wales, were 77 each given three standard prawn traps (referred to hereafter as “science pots”). The cylindrical pots were 78 fitted with 8 mm mesh on all sides with 35 mm circular entrance at both ends. Once a month, when possible, 79 each fisher recorded the date and GPS location of a haul and the entire contents of each science pot were kept 80 separate and stored frozen. Samples were retained for scientific analysis during two fishing seasons (2013- 81 2014 and 2014-2015), ending in May 2015. 82 <figure 1> 83 84 Scientific pot samples were assessed in the laboratory using a dissecting microscope. All animals caught in 85 the science pots were identified, weighed and measured. Palaemon species were identified according to the 3 P serratus biology & size-selective fishing 86 illustrated key published by González-Ortegón & Cuesta (2006). Sex was recorded; male prawns were 87 identified by the presence of an appendix masculina on the second pleopod pair.
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